Electric Digital Data Processing TRIZ Cases

A storage controller selects retry timing based on host response statistics to minimize read-retry duration.

Ternary signaling maps multi-bit codes onto existing media to increase data rates while maintaining compatibility with standard transmission infrastructure.

A USB transmission system routes three data signals across two conductor pairs using phantom circuit topology to maintain differential integrity.

Bridge control logic uses counters to stall transactions, preventing stale data issues when separating read and write paths.

A bus system uses two separate data lines to enable bidirectional digital serial transmission between masters and slaves.

Calculates average response times for request and response telegrams to determine signal run times along a serial asynchronous data bus.

Response modification circuitry intercepts transaction responses to divide burst transfers and manage coherency states, reducing interconnect complexity.

Automatic voltage-based switching resolves platform incompatibility by granting BYOM devices access to shared room peripherals without manual reconfiguration.

A lane allocation module determines device performance capabilities to assign PCIe bus lanes.

An intermediate reconfigurable dataflow unit routes peer-to-peer messages to a target node, eliminating external switching hardware.

A receiver architecture relocates incremental redundancy buffers to external memory via a buffer bus.

Segmenting architecturally visible and hidden structures in a single pipeline reduces chip area and power consumption while maintaining throughput.

Dynamic mode switching enables super high data rate communication over existing I3C lines without adding pins or sacrificing legacy device compatibility.

Independent parallel memory channels and relaxed ordering protocols reduce bridge latency while maintaining data integrity through reordering buffers.

A bridge device translates I2C messages between parent and child buses while stretching clock lines to synchronize data transfer.

A communication device assigns a group address to multiple slave devices on an I3C bus interface.

Cross mode conditions coordinate independent arbitration stages to prevent bus contention while maintaining high memory access speed.

Intermediary FX devices extend DisplayPort capabilities without hardware redesigns by performing additional functions on main link and AUX channel signals.

Bidirectional bus system uses differential voltage ranges to encode idle and active states on a two-wire network.

A peripheral device connector uses a controller to establish logical connections via distinct interface specifications.

Modular I/O card segments addressing to resolve I2C complexity limits, enabling scalable drive management without separate software development.

Two switches dynamically assign PCI-E lanes between slots, allowing the second slot to receive a complete signal despite large CPU heat sinks.

A channel manager dynamically updates peripheral input channels based on directional context data.

A control circuit packs multiple commands into a compound frame for single-packet transmission over a bus interface.

Event transfer blocks decouple pointers and counters in an asynchronous FIFO buffer, reducing area and power consumption for high-bandwidth data transfer.

Dynamic interface selection via SerDes adapts devices to multiple standards, preventing obsolescence as systems migrate protocols.

A USB extension device multiplexer couples receive conductors to a null data source during electrical idle states.

Hall sensors detect low-side current flow to assign unique identifiers, eliminating complex reprogramming when modules are replaced or repositioned.

Segmenting memory devices into direct and indirect ranks distributes transmission load, maintaining operating speed while expanding data storage capacity.

A single USB device controller simulates multiple virtual devices via a CPLD and analog switch.

Hardware logic signals automate USB bulk data transfers, eliminating firmware overhead and microprocessor intervention to reduce power consumption.

A PCIe cluster manager discovers and configures resources across virtualized topologies to allocate bandwidth dynamically.

Unified slot management coordinates power across multiple slots, enabling concurrent device replacement without disrupting system operation.

Initiator and target bridges enforce dynamic trust boundaries to resolve security vulnerabilities in multi-tenant integrated circuits.

Virtual link state machines isolate retraining to active protocol layers, reducing power consumption by maintaining inactive layers in a low power state.

A programmable serial input-output controller adapts timing operations to decode diverse interface signals.

A programmable data space arbiter elevates secondary bus master priority above the default CPU level using dedicated override bits.

A hot-swappable connector structure uses a chip database to manage delay intervals, resolving unstable power supply management in USB4 and Thunderbolt systems.

A transmission unit segments CAN FD messages using control signal checking to forward bit sequences selectively.

A memory PHY uses early command indication signals to enable receiver bias circuitry and clock networks before active read operations.

Hardware scheduler manages time limit values and selects access requests with minimum limits to ensure real-time operation.

Dual-bus architecture automates address discovery to resolve configuration complexity when adding or removing controlled modules.

An arbiter determines bus access order using meta information about planned transmissions to optimize channel utilization.